Linkage Infrastructure, Equipment And Facilities - Grant ID: LE180100037
Funder
Australian Research Council
Funding Amount
$223,039.00
Summary
Cryogenic quantum microscope facility. This project aims to establish a cryogenic, quantum microscope facility in Australia. Quantum sensing is a new field that harnesses the properties of individual quantum systems to realise new types of detection and imaging with unprecedented combination of sensitivity and spatial resolution. The potential innovations, applications and benefits to society are far reaching across the full spectrum of scientific and engineering activity, from the development o ....Cryogenic quantum microscope facility. This project aims to establish a cryogenic, quantum microscope facility in Australia. Quantum sensing is a new field that harnesses the properties of individual quantum systems to realise new types of detection and imaging with unprecedented combination of sensitivity and spatial resolution. The potential innovations, applications and benefits to society are far reaching across the full spectrum of scientific and engineering activity, from the development of atomic-scale imaging of protein structures for drug discovery, to the study of chemical, physical, and biological processes and materials for advanced technology and manufacturing.Read moreRead less
Single spin molecular microscope. This project aims to create a new tool for imaging and analysing material at the atomic level. The tool is based on individual quantum coherent spins in diamond which can be manipulated and optically read. The project expects to generate knowledge in quantum metrology and an understanding of molecular dynamics at the nanoscale. The expected outcome is a new type of device capable of imaging complex physical systems at the level of their individual constituent co ....Single spin molecular microscope. This project aims to create a new tool for imaging and analysing material at the atomic level. The tool is based on individual quantum coherent spins in diamond which can be manipulated and optically read. The project expects to generate knowledge in quantum metrology and an understanding of molecular dynamics at the nanoscale. The expected outcome is a new type of device capable of imaging complex physical systems at the level of their individual constituent components. This has significant benefits in improving designer materials, energy production, information storage, and drug design.Read moreRead less
Controlled manipulation of matter-waves in atomic waveguiding structures. This project will enable Australian researchers to actively participate in the cutting edge, internationally competitive research that investigates ways to manipulate and guide large ensembles of ultra-cold atoms and underpins future technological applications in ultra-high-precision metrology and sensors. Australia is currently moving into a prominent position amongst world leaders in this fast-paced research field. The o ....Controlled manipulation of matter-waves in atomic waveguiding structures. This project will enable Australian researchers to actively participate in the cutting edge, internationally competitive research that investigates ways to manipulate and guide large ensembles of ultra-cold atoms and underpins future technological applications in ultra-high-precision metrology and sensors. Australia is currently moving into a prominent position amongst world leaders in this fast-paced research field. The outcomes of this proposal will further raise the prestige of Australian research overseas, and lead to greater acceptance of Australia as a major player in fundamental research. It will also provide outstanding training opportunities for young researchers.Read moreRead less
Matter-wave vortices in engineered nanostructures. This project tackles some of the key problems which must be solved before any applications of manipulating and controlling Bose-Einstein condensates with nanostructures can be realised. This project is therefore of National Benefit for its advances in critical fundamental research and for the potential applications which may be ultimately derived from harnessing the power of this new state of matter. Australia is at the forefront of this revol ....Matter-wave vortices in engineered nanostructures. This project tackles some of the key problems which must be solved before any applications of manipulating and controlling Bose-Einstein condensates with nanostructures can be realised. This project is therefore of National Benefit for its advances in critical fundamental research and for the potential applications which may be ultimately derived from harnessing the power of this new state of matter. Australia is at the forefront of this revolution in quantum technology. This project furthers Australia's competitive position and opens up new opportunities for ground-breaking research and applications in an area which has the potential to be as revolutionary as the development of the laser.Read moreRead less
Ultrafast photonic hammer: A new strategy to synthesise super-dense super-hard nanomaterials. We will develop a new way for laboratory synthesis of new classes of super-hard and super-dense materials at and above the extremely high temperature and density range currently accessible only in nuclear explosions. The ability of ultra-fast laser-induced phase transformations will be exploited aiming to form materials with exotic properties, which are theoretically predicted, but has not experimental ....Ultrafast photonic hammer: A new strategy to synthesise super-dense super-hard nanomaterials. We will develop a new way for laboratory synthesis of new classes of super-hard and super-dense materials at and above the extremely high temperature and density range currently accessible only in nuclear explosions. The ability of ultra-fast laser-induced phase transformations will be exploited aiming to form materials with exotic properties, which are theoretically predicted, but has not experimentally confirmed yet. Our new approach will have a profound interdisciplinary impact. The project will deliver underpinning knowledge, foremost practical expertise, and the prominent training of young researchers to secure Australia's international position among the leaders in the rapidly growing and competitive field of nanotechnology.Read moreRead less
Optical-spin coupling in the nitrogen-vacancy centre in diamond. Australia has made investment in the developing area of quantum information processing where information is stored and processed by manipulating the spin states in solids. One of the most promising materials for this purpose is diamond incorporating nitrogen-vacancy colour centres. The appeal with this material is that the processing can be faster and components smaller as the spins can be controlled by laser beams. This project in ....Optical-spin coupling in the nitrogen-vacancy centre in diamond. Australia has made investment in the developing area of quantum information processing where information is stored and processed by manipulating the spin states in solids. One of the most promising materials for this purpose is diamond incorporating nitrogen-vacancy colour centres. The appeal with this material is that the processing can be faster and components smaller as the spins can be controlled by laser beams. This project investigates the control of spin with light to obtain optimum performance.Read moreRead less
Self-assembled semiconductor nanocrystals as functional materials for microelectronics, optoelectronics and photonics. This project will study an important new class of nanoscale materials (semiconductor nanocrystals) with the aim of understanding the processes and mechanisms responsible for their structure and properties. It will have direct application to microelectronics, optoelectronics and photonics; will provide world-class training for Australia's future scientists and engineers in mater ....Self-assembled semiconductor nanocrystals as functional materials for microelectronics, optoelectronics and photonics. This project will study an important new class of nanoscale materials (semiconductor nanocrystals) with the aim of understanding the processes and mechanisms responsible for their structure and properties. It will have direct application to microelectronics, optoelectronics and photonics; will provide world-class training for Australia's future scientists and engineers in materials science and nanotechnology; and will further strengthen international scientific collaboration in these field.Read moreRead less
Meta-microscopy of insect tissue: How nature grows bicontinuous nanosolids. Several butterfly species grow a complex nano-sculptured matrix whose chiral network structure confers remarkable optical properties, including jewel-like reflections. The formation process remains mysterious and a spectacular case of bottom-up self-assembly at far larger scales than accessible in the lab. The project aims to decipher this process, by (a) tomography of a species where arrested growth sites represent time ....Meta-microscopy of insect tissue: How nature grows bicontinuous nanosolids. Several butterfly species grow a complex nano-sculptured matrix whose chiral network structure confers remarkable optical properties, including jewel-like reflections. The formation process remains mysterious and a spectacular case of bottom-up self-assembly at far larger scales than accessible in the lab. The project aims to decipher this process, by (a) tomography of a species where arrested growth sites represent time-frozen snapshots of the development, and (b) by a combination of micron-resolved in-vivo microscopy of a developing butterfly wing with a growth model to infer nanometer-scale information. This insight will lead to blueprints for self-assembly strategies and shed light on function and form of inner-cellular membranes. Read moreRead less
Nanoclusters with Extraordinary Properties Made out of Ordinary Materials. Ultrafast laser deposition - a process pioneered by the Applicants - has already demonstrated record yields in the production of carbon-based nano-clustered materials with better control over the size of the nano-particles than any other process. This project aims to improve fundamental understanding of the ultra-fast laser deposition method of nano-fabrication through theoretical and experimental studies, which accurate ....Nanoclusters with Extraordinary Properties Made out of Ordinary Materials. Ultrafast laser deposition - a process pioneered by the Applicants - has already demonstrated record yields in the production of carbon-based nano-clustered materials with better control over the size of the nano-particles than any other process. This project aims to improve fundamental understanding of the ultra-fast laser deposition method of nano-fabrication through theoretical and experimental studies, which accurately correlate the ablation conditions to the structural, electronic, magnetic and optical properties of resulting nano-particles. The results will be applied to efficiently produce nano-clustered materials with tuneable properties for a wide range of new technologies such as spintronics, biophotonics, and nanoclinics.Read moreRead less
High-energy electron scattering of surfaces: new spectroscopies and new physics. Electrons sometimes behave as particles, and sometimes as waves. Both aspects are used when investigating nano-structures with electron beams. In this research program we design and perform experiments to measure sample composition using the particle nature, and the atom positions by using the wave nature of electrons. These novel experiments, using unique spectrometers designed and developed in Australia, are aime ....High-energy electron scattering of surfaces: new spectroscopies and new physics. Electrons sometimes behave as particles, and sometimes as waves. Both aspects are used when investigating nano-structures with electron beams. In this research program we design and perform experiments to measure sample composition using the particle nature, and the atom positions by using the wave nature of electrons. These novel experiments, using unique spectrometers designed and developed in Australia, are aimed at making new forms of electron microscopy possible, but will also result in a better understanding of existing electron microscopies and synchrotron-based measurements.Read moreRead less